Information about Key Punch
A key punch is a device for entering data into punched cards by precisely punching holes at locations designated by the keys struck by the operator. Early keypunches were manual devices. Later keypunches were mechanized, often resembled a small desk, with a keyboard similar to a typewriter, and with hoppers for blank and punched cards. Some key punch models could print at the top of columns, the character punched in each of those columns. The small pieces punched out by a keypunch fell into a chad box, or (at IBM) chip box, or bit bucket.
In many data processing facilities the punched cards were sent to a second machine, called a verifier, that looked similar to a key punch. The verifier operator entered the exact same data as the keypunch operator and the verifier machine then checked to see if the punched data was the same. Successfully verified cards had a small notch punched on the right hand edge. There was a great demand for key punch operators, usually women[1], who worked full-time on key punch and verifier machines.
Some IBM keypunches provided for the mounting of a program (or drum) card that controlled various functions, such as tabbing and automatic duplication of fields from the previous card.
The IBM 024 Card Punch (photo) and IBM 026 Printing Card Punch were announced in 1949. They were almost identical, with the exception of the printing mechanism.
The heart of the 024 and 026 keypunches was a set of twelve precision punches, one per card row, each with an actuator of relatively high power. Punch cards were stepped across the punch one column at a time, and the appropriate punches were activated to create the holes, resulting in a distinctive "chunk, chunk" sound as columns were punched.
The 026 could print the punched character above each column. There were two popular versions with slightly different character sets. The scientific version printed parentheses, equal sign and plus sign in place of four less frequently used characters in the commercial character set: percent, lozenge, pound, and ampersand. The character was printed using a 5x7 dot matrix array of wires; the ROM from which it derived the shape of the character was a metal plate with space for 2240 pins (if the dot was not to be printed in a given character, the pin was machined off). By correctly positioning the plate and pressing it against one end of the array of printing wires, only the correct wires were pressed against the ribbon and then the punched card. (This printer mechanism was generally considered by IBM Customer Engineers to be unreliable and difficult to repair. One of the most common problems was wires breaking in the tightly curved narrow tube between the ROM plate and the ribbon - extracting the fragments and replacing the bundle of 35 wires was very tedious!)
Logic consisted of diodes, 25L6 vacuum tubes and relays. The circuits used 150VDC, which was present in the keyboard (you did not want to spill a drink on it).
Raymond Loewy, industrial designer of "streamlined" motifs who also designed railway passenger cars of the 1930s and 1940s, did the award winning external design of the 026/024 series for IBM. Their heavy steel construction and rounded corners (photos) indeed echo the industrial Art Deco style.
The IBM 056 verifier utilized most of the same mechanical and electrical components as the 024/026 keypunch machines with the exception of the punch unit and print head. The punch unit had sensing pins in place of the punches which were driven through the holes where present, and prevented from full travel where there was no hole present as each card column was stepped by. The holes sensed or not sensed would trip a contact bail when the configuration was other than that entered by the verifier operator. This stopped the forward motion of the card, and presented a red error light on the lower center of the machine cover. The notching mechanism was physically located in the area occupied by the print mechanism on a 026 printing keypunch. It had a solenoid which drove the notching mechanism, and another that selected the top notch punch or end of card punch.
When an operator keying data to be verifed encounted an error the operator was given a second and third try to re-enter the data that was supposed to be in the field. If the third try was incorrect an error notch was put on the top of the card over the column with the error and the "OK" punch at the end of the card was not enabled. It should be noted that the data in the card could actually be correct upon occasion as the verifier operator was capable of making errors as well as the keypunch operator. However with three tries, the operator was less likely to repeatedly make the same error. Some verifier operators were able to guess the error on the card created by the previous keypunch operator defeating the purpose of the verify procedure, and thus some machines were altered to allow only one entry and error notched on the second try.
Cards with error notches were re-punched (using an 024 or 026) usually by "duplicating" to the column in error, then entering the correct data. The "duplicating function was accomplished by feeding the card through the punch station without punching it. At the next station sensing pins read the holes present in the original card and transferred the data to the punching station and into a blank card. Columns with errors were corrected instead of being duplicated. The corrected card was then verified to check the data again and be "OK notched"
Introduced with System/360 in 1964, the 029 had new character codes for parentheses, equal and plus as well as other new symbols used in the EBCDIC code. The IBM 029 was mechanically similar to the IBM 026 and printed the punched character on the top of the card using the same kind of mechanism as the 026.
The 029's logic consisted of diodes on SMS cards and relays running on 48VDC.
Logic was in SLT modules.
A secondary advantage of the 129 was that the speed of the keying operation was not limited by punching each column at the time of the keystroke.
The 129 could store six programs in its memory, selectable by a rotary switch (no drum card required).
The program card was also called the drum card because it was mounted on a small metal drum that was as high as the card and whose circumference was equal to the length of the card. The drum is visible in the above image behind the window in the upper/center section of the machine. The central cover would be tilted toward the operator, a locking lever released, and the drum then removed/replaced. The holes in the drum card were sensed by an array of starwheels that would cause levers to rise and fall as the holes in the drum card passed beneath the starwheels, activating electrical contacts. The drum card was punched with characters that controlled its function as follows:
Many programming languages, such as Fortran, the RPG programming language or the IBM Conditional assembly language, coded operations in specific card columns, such as 1, 10, 16, 36, and 72. The drum card for such a setup would be coded as:
1.......10........20........30........40........50........60........70........80 1AAAAAAAA1AAAAA1AAAAAAAAAAAAAAAAAAA1AAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAA &&&&&&&&
Note: "Field Definition" (12) and "Alphabetic Shift" (1) prints as an A. If Program #2 codes were punched, invalid characters could be generated that the printer did not know how to print, some of which could even damage the printer! Thus it was usually a good idea to turn off printing when duplicating a drum card on the 026 or 029.
Drum card programs could automate certain tasks, such as "gang punching", the insertion of a constant field into each card of a deck of cards. For amusement, drum cards could even be set up to play music by gang-punching "noisy" characters (characters represented by many holes, usually special characters) and "quiet" numbers and letters in rhythmic patterns.
IBM, in the early 1970s, introduced the System/3 family of low-end business computers which featured a new, smaller sized, punch card format with 96 columns. Key punches and verifiers were made for these 96-column cards.
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Read-only memory (usually known by its acronym, ROM) is a class of storage media used in computers and other electronic devices.
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In many data processing facilities the punched cards were sent to a second machine, called a verifier, that looked similar to a key punch. The verifier operator entered the exact same data as the keypunch operator and the verifier machine then checked to see if the punched data was the same. Successfully verified cards had a small notch punched on the right hand edge. There was a great demand for key punch operators, usually women[1], who worked full-time on key punch and verifier machines.
Some IBM keypunches provided for the mounting of a program (or drum) card that controlled various functions, such as tabbing and automatic duplication of fields from the previous card.
Hollerith and IBM Keypunches, 1890 through 1930s
Herman Hollerith's first device for punching cards from the 1890s used a pantograph to link a punch mechanism to a guide pointer that an operator would place over the appropriate mark in a 12 by 20 matrix to line up a manual punch over correct hole in one of 20 columns, In 1901, Hollerith patented a mechanism where an operator pressed one of 12 keys to punch a hole, with the card automatically advancing to the next column. U.S. Patent 682,197 This first generation Type 001 key punch used 45 columns and round holes. In 1923 CTR (renamed IBM in 1924) introduced the first electric keypunch[2], a similar looking device where each key closed an electrical contact that activated a solenoid which punched the hole. Later IBM key punches included the Type 016 Motor-Driven Electric Duplicating Key Punch (1929), the Type 31 Alphabetical Duplicating Punch (1933) ,and the Type 32 Alphabetical Printing Punch (1933). See Early Card Punch Machines at Columbia University Computing History[3].Post-WW II IBM Key punches and verifiers for 80-column cards
IBM 024, 026
)
Metal plate character generator ROM from IBM 026 keypunch
The heart of the 024 and 026 keypunches was a set of twelve precision punches, one per card row, each with an actuator of relatively high power. Punch cards were stepped across the punch one column at a time, and the appropriate punches were activated to create the holes, resulting in a distinctive "chunk, chunk" sound as columns were punched.
The 026 could print the punched character above each column. There were two popular versions with slightly different character sets. The scientific version printed parentheses, equal sign and plus sign in place of four less frequently used characters in the commercial character set: percent, lozenge, pound, and ampersand. The character was printed using a 5x7 dot matrix array of wires; the ROM from which it derived the shape of the character was a metal plate with space for 2240 pins (if the dot was not to be printed in a given character, the pin was machined off). By correctly positioning the plate and pressing it against one end of the array of printing wires, only the correct wires were pressed against the ribbon and then the punched card. (This printer mechanism was generally considered by IBM Customer Engineers to be unreliable and difficult to repair. One of the most common problems was wires breaking in the tightly curved narrow tube between the ROM plate and the ribbon - extracting the fragments and replacing the bundle of 35 wires was very tedious!)
Logic consisted of diodes, 25L6 vacuum tubes and relays. The circuits used 150VDC, which was present in the keyboard (you did not want to spill a drink on it).
Raymond Loewy, industrial designer of "streamlined" motifs who also designed railway passenger cars of the 1930s and 1940s, did the award winning external design of the 026/024 series for IBM. Their heavy steel construction and rounded corners (photos) indeed echo the industrial Art Deco style.
IBM 056 Card Verifier
Verifier companion to the IBM 024 Card Punch and IBM 026 Printing Card Punch. Physically, the IBM 056 verifier was visually similar to the 026 keypunch except for the presence of a red error lens located in the machine cover lower center.The IBM 056 verifier utilized most of the same mechanical and electrical components as the 024/026 keypunch machines with the exception of the punch unit and print head. The punch unit had sensing pins in place of the punches which were driven through the holes where present, and prevented from full travel where there was no hole present as each card column was stepped by. The holes sensed or not sensed would trip a contact bail when the configuration was other than that entered by the verifier operator. This stopped the forward motion of the card, and presented a red error light on the lower center of the machine cover. The notching mechanism was physically located in the area occupied by the print mechanism on a 026 printing keypunch. It had a solenoid which drove the notching mechanism, and another that selected the top notch punch or end of card punch.
When an operator keying data to be verifed encounted an error the operator was given a second and third try to re-enter the data that was supposed to be in the field. If the third try was incorrect an error notch was put on the top of the card over the column with the error and the "OK" punch at the end of the card was not enabled. It should be noted that the data in the card could actually be correct upon occasion as the verifier operator was capable of making errors as well as the keypunch operator. However with three tries, the operator was less likely to repeatedly make the same error. Some verifier operators were able to guess the error on the card created by the previous keypunch operator defeating the purpose of the verify procedure, and thus some machines were altered to allow only one entry and error notched on the second try.
Cards with error notches were re-punched (using an 024 or 026) usually by "duplicating" to the column in error, then entering the correct data. The "duplicating function was accomplished by feeding the card through the punch station without punching it. At the next station sensing pins read the holes present in the original card and transferred the data to the punching station and into a blank card. Columns with errors were corrected instead of being duplicated. The corrected card was then verified to check the data again and be "OK notched"
IBM 824 Typewriter Card Punch
This was an IBM 024 where the 024 keyboard was replaced by an IBM electric typewriter, permitting the same text to be typed and punched.IBM 826 Typewriter Card Punch
This was an IBM 026 where the 026 keyboard was replaced by an IBM electric typewriter, permitting the same text to be typed and punched.IBM 029
)
IBM 029 keypunch
The 029's logic consisted of diodes on SMS cards and relays running on 48VDC.
IBM 059 Card Verifier
Verifier companion to the IBM 029 Card Punch.IBM 129 Card Data Recorder
Introduced with the System/370 in 1971, the transistorized IBM 129 Card Data Recorder's primary advantage over the 029 was that it featured an electronic 80 column buffer to hold the card image. When using earlier keypunches a keystroke error required the card to be ejected by pressing the Release and Register keys, the error corrected by pressing the Duplicate key until the wrong column was reached, typing the correct data for the rest of that card, then pressing the Release key and manually removing the bad card from the output card stacker before it was placed in the deck (this required some practice, but quickly became an automatic action that you no longer had to think about). With the 129 a keystroke error could be erased by pressing the Backspace key and re-keyed. The entire 80 column card was punched automatically, as fast as the mechanism could go, when the Release key was pressed.Logic was in SLT modules.
A secondary advantage of the 129 was that the speed of the keying operation was not limited by punching each column at the time of the keystroke.
The 129 could store six programs in its memory, selectable by a rotary switch (no drum card required).
IBM 129 Verifier
The IBM 129 was capable of both punching and verifying. A switch on the keyboard unit provided the ability to toggle between the two modes.Program card
IBM 024, 026, and 029 keypunches, with the optional Program Drum feature installed, and their companion verifiers, the 056 and 059, could be programmed (using another punched card, of course) to automatically advance to the beginning of each field, only accept certain character types within the field, duplicate a field from the previous card, and so on. A switch permitted selection of one of two programs, if the optional Second Program feature was installed, with program 1 in the top six rows [12,11,0,1,2,3] and program 2 in the bottom six rows [4,5,6,7,8,9].The program card was also called the drum card because it was mounted on a small metal drum that was as high as the card and whose circumference was equal to the length of the card. The drum is visible in the above image behind the window in the upper/center section of the machine. The central cover would be tilted toward the operator, a locking lever released, and the drum then removed/replaced. The holes in the drum card were sensed by an array of starwheels that would cause levers to rise and fall as the holes in the drum card passed beneath the starwheels, activating electrical contacts. The drum card was punched with characters that controlled its function as follows:
| Function | Program | Usage | |||
|---|---|---|---|---|---|
| #1 | Char. | #2 | Char. | ||
| Field Definition | 12 | & | 4 | 4 | Punch in every column of a field, except the first (left) |
| Start Automatic Skip | 11 | - | 5 | 5 | Punch in first (left) column of field(s) to skip |
| Start Automatic Duplication | 0 | 0 | 6 | 6 | Punch in first (left) column of field(s) to duplicate |
| Alphabetic Shift | 1 | 1 | 7 | 7 | Punch in a column to shift keyboard to Alphabetic mode |
| Left Zero Print | 2 | 2 | 8 | 8 | Punch in a column to force printing of leading zeros and signs |
| Print Suppression | 3 | 3 | 9 | 9 | Punch in a column to suppress printing |
Many programming languages, such as Fortran, the RPG programming language or the IBM Conditional assembly language, coded operations in specific card columns, such as 1, 10, 16, 36, and 72. The drum card for such a setup would be coded as:
1.......10........20........30........40........50........60........70........80 1AAAAAAAA1AAAAA1AAAAAAAAAAAAAAAAAAA1AAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAAA &&&&&&&&
Note: "Field Definition" (12) and "Alphabetic Shift" (1) prints as an A. If Program #2 codes were punched, invalid characters could be generated that the printer did not know how to print, some of which could even damage the printer! Thus it was usually a good idea to turn off printing when duplicating a drum card on the 026 or 029.
Drum card programs could automate certain tasks, such as "gang punching", the insertion of a constant field into each card of a deck of cards. For amusement, drum cards could even be set up to play music by gang-punching "noisy" characters (characters represented by many holes, usually special characters) and "quiet" numbers and letters in rhythmic patterns.
Other keypunches
UNIVAC made key punches for their 90-column cards and similar machines for the IBM 80-column card. Their 90-column key punches used a mechanical system developed by Remington Rand, to avoid IBM patent issues (long before the acquisition of Eckert-Mauchly Computer Corporation), that stored the entire card image and punched all holes on the entire card simultaneously.)
A System 3 punch card.
References
- IBM (n.d.). IBM Accounting Machines, Electric Punch Type 011, Customer Engineering Manual of Instruction.
- IBM (December, 1964). Reference Manual: IBM 24 Card Punch, IBM 26 Printing Card Punch. A24-0520-2.
- IBM (1969). IBM Field Engineering Maintenance Manual - 29 Card Punch. S225-3357-3.
- IBM (December, 1962). Reference Manual: IBM 056 Card Verifer. A24-1018-1.
1. ^ IBM Archive: Keypunch operators, 1934, Stockholm
2. ^ IBM Archive: 1923
3. ^ Columbia University Computing History: Early Card Punch Machines
2. ^ IBM Archive: 1923
3. ^ Columbia University Computing History: Early Card Punch Machines
External links
- Columbia University Computing History: IBM Keypunches
- IBM Archives: IBM 029 — Card Punch
- IBM Archives: Working for the railroad (001 keypunch)
punch card or punched card (or punchcard or Hollerith card or IBM card), is a piece of stiff paper that contains digital information represented by the presence or absence of holes in predefined positions.
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Alphanumeric keyboards include typewriters and computer keyboards. An alphanumeric keyboard is a device with many keys (usually marked with the letters of the alphabet, the numerical digits, and various extra keys.
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Chads are paper particles created when holes are made in a paper, card or similar synthetic materials, typically computer punched tape or punch cards.
Chads were made famous in the highly contentious 2000 presidential election in the United States, where a majority in the U.
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Chads were made famous in the highly contentious 2000 presidential election in the United States, where a majority in the U.
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The bit bucket is jargon for where lost computerized data has gone, by any means; any data which does not end up where it is supposed to, being lost in transmission, a computer crash, or the like is said to have gone to the bit bucket — that mysterious place on a computer
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Two pass verification, also called double data entry, is a data entry quality control method that was originally employed when data records were entered onto sequential 80 column Hollerith cards with a keypunch.
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International Business Machines Corporation
Public (NYSE: IBM )
Founded 1889, incorporated 1911
Headquarters Armonk, New York, USA
Key people Samuel J.
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Public (NYSE: IBM )
Founded 1889, incorporated 1911
Headquarters Armonk, New York, USA
Key people Samuel J.
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Herman Hollerith (February 29, 1860 – November 17, 1929) was a German-American statistician who developed a mechanical tabulator based on punched cards in order to rapidly tabulate statistics from millions of pieces of data.
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Centuries: 18th century - 19th century - 20th century
1860s 1870s 1880s - 1890s - 1900s 1910s 1920s
1890 1891 1892 1893 1894
1895 1896 1897 1898 1899
- -
- The 1890s
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1860s 1870s 1880s - 1890s - 1900s 1910s 1920s
1890 1891 1892 1893 1894
1895 1896 1897 1898 1899
- -
- The 1890s
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- This page is about the duplication instrument.
- For devices on trains, see: Pantograph (rail).
- For the knife, see: Pantographic knife.
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The Computing Tabulating Recording Corporation (CTR)[1] was incorporated on June 15 1911 in Endicott, New York a few miles west of Binghamton. CTR was formed through a merger of four separate corporations: Tabulating Machine Company (founded 1896 in Washington, D.C.
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A solenoid is a 3-dimensional coil.
In physics, the term solenoid refers to a loop of wire, often wrapped around a metallic core, which produces a magnetic field when an electrical current is passed through it.
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In physics, the term solenoid refers to a loop of wire, often wrapped around a metallic core, which produces a magnetic field when an electrical current is passed through it.
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dot matrix is a 2-dimensional array of dots used to generate characters, symbols and images.
Typically the dot matrix is used in older computer printers and many digital display devices. In printers, the dots are usually the darkened areas of the paper.
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Typically the dot matrix is used in older computer printers and many digital display devices. In printers, the dots are usually the darkened areas of the paper.
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- The notion of read-only data can also refer to file system permissions.
Read-only memory (usually known by its acronym, ROM) is a class of storage media used in computers and other electronic devices.
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ribbon is a thin band of flexible material, typically cloth but also plastic or sometimes metal, used primarily for binding and tying. Cloth ribbons, which most commonly includes silk, are often used in connection with dress, but also applied for innumerable useful, ornamental and
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diode is a component that restricts the directional flow of charge carriers. Essentially, a diode allows an electric current to flow in one direction, but blocks it in the opposite direction. Thus, the diode can be thought of as an electronic version of a check valve.
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The 25L6 is an octal-based vacuum tube of the beam-power tetrode type. It found common application in AC/DC radio receivers - such as those of the All American Five type - and was also found in large numbers in early computers, such as the UNIVAC I.
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vacuum tube, electron tube (inside North America), thermionic valve, or just valve (elsewhere); is a device used to amplify, switch, otherwise modify, or create an electrical signal by controlling the movement of electrons in a low-pressure space, often not
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relay is an electrical switch that opens and closes under the control of another electrical circuit. In the original form, the switch is operated by an electromagnet to open or close one or many sets of contacts. It was invented by Joseph Henry in 1835.
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Raymond Loewy (November 5, 1893 - July 14, 1986) was one of the best known industrial designers of the 20th century. Born in France, he spent most of his professional career in the United States, where he influenced countless aspects of American life.
Loewy became a U.S.
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Loewy became a U.S.
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Art Deco was a popular design movement from 1920 until 1939, affecting the decorative arts such as architecture, interior design, and industrial design, as well as the visual arts such as fashion, painting, the graphic arts, and film.
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System/360 Model 65 operator's console, with register value lamps and toggle switches (middle of picture) and "emergency pull" switch (upper right).]] The IBM System/360 (S/360) is a mainframe computer system family announced by IBM on April 7, 1964.
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Extended Binary Coded Decimal Interchange Code (EBCDIC) is an 8-bit character encoding (code page) used on IBM mainframe operating systems, like z/OS, OS/390, VM and VSE, as well as IBM minicomputer operating systems like OS/400 and i5/OS (see also Binary Coded Decimal).
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diode is a component that restricts the directional flow of charge carriers. Essentially, a diode allows an electric current to flow in one direction, but blocks it in the opposite direction. Thus, the diode can be thought of as an electronic version of a check valve.
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The Standard Modular System (SMS) was a system of standard transistorized circuit boards and mounting racks developed by IBM in the late 1950s, originally for the IBM 7030 Stretch.
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IBM System/370 (often: S/370) was a model range of IBM mainframes announced on June 30, 1970 as the successors to the System/360 family. The series maintained backward compatibility with the S/360, allowing an easy migration path for customers; this, plus improved
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Backspace is the keyboard key that originally pushed the typewriter carriage one position backwards, and in modern computer displays moves the cursor one position backwards, deletes the preceding character, and shifts back the text after it by one position.
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Solid Logic Technology (SLT) was IBM's method for packaging electronic circuitry introduced in 1964 with the IBM System/360 series and related machines. IBM chose to design custom hybrid circuits using discrete, flip chip-mounted, glass-encapsulated transistors and diodes, with
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Fortran
Paradigm: multi-paradigm: procedural, imperative, structured, object-oriented
Appeared in: 1957
Designed by: John W. Backus
Developer: John W.
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Paradigm: multi-paradigm: procedural, imperative, structured, object-oriented
Appeared in: 1957
Designed by: John W. Backus
Developer: John W.
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RPG is a programming language for business applications. Originally an initialism for Report Program Generator, it officially no longer stands for anything. Its latest incarnation is RPG IV
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A Conditional Assembly Language is that part of an Assembly Language used to write macros.
In the IBM conditional assembly language (as an example), the most important statements are:-
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In the IBM conditional assembly language (as an example), the most important statements are:-
- MACRO and MEND - used to start and finish a macro
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